Intelligent fiber co-trench identification algorithm and experiment

The coexistence of primary and backup optical fibers in the same trench poses a high-risk event due to the passive nature of optical fibers, which may lead to the sharing of the same trench by primary and backup services. When faults occur, primary and backup services will interrupt at the same time. Currently, it is difficult and inefficient to rely solely on manual identification of co-trench fibers, which brings significant risks to the service quality of communication networks. To enhance the survivability of communication networks, this paper proposes and validates an ensemble learning detection architecture, utilizing artificial intelligence to identify co-trench fibers. This architecture achieves high-precision online identification of co-trench fibers in operator networks without the need for manual tapping for detection along the routes. This paper employs the curve similarity learner based on the dynamic characteristics of fiber vibration for co-trench fiber identification. For the first time, field trials on co-trench fiber identification were conducted. Preprocessing of dynamic fiber vibration data collected from the field is performed, and evaluation is conducted based on metrics such as accuracy and <roman>F</roman>1-score derived from the confusion matrix. The curve similarity ensemble learning algorithm proposed in this paper improves accuracy by 6.1% compared to sub-optimal non-ensemble learning models. Experimental results validate the reliability and advancement of the proposed architecture.

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Publication Details

Journal
Scientia Sinica Informationis
Published
2024-09-13
DOI
https://doi.org/10.1360/ssi-2024-0118
Primary Topic
Advanced Fiber Optic Sensors
Type
article
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article

Intelligent fiber co-trench identification algorithm and experiment

Yucong Liu, Hui Ying Yang, Dong Wang, Zhiwei Wang et al.
Scientia Sinica Informationis
Advanced Fiber Optic Sensors
article

Intelligent fiber co-trench identification algorithm and experiment

Yucong Liu, Hui Ying Yang, Dong Wang, Zhiwei Wang, Dechao Zhang, Yunbo Li
article en

Abstract

The coexistence of primary and backup optical fibers in the same trench poses a high-risk event due to the passive nature of optical fibers, which may lead to the sharing of the same trench by primary and backup services. When faults occur, primary and backup services will interrupt at the same time. Currently, it is difficult and inefficient to rely solely on manual identification of co-trench fibers, which brings significant risks to the service quality of communication networks. To enhance the survivability of communication networks, this paper proposes and validates an ensemble learning detection architecture, utilizing artificial intelligence to identify co-trench fibers. This architecture achieves high-precision online identification of co-trench fibers in operator networks without the need for manual tapping for detection along the routes. This paper employs the curve similarity learner based on the dynamic characteristics of fiber vibration for co-trench fiber identification. For the first time, field trials on co-trench fiber identification were conducted. Preprocessing of dynamic fiber vibration data collected from the field is performed, and evaluation is conducted based on metrics such as accuracy and <roman>F</roman>1-score derived from the confusion matrix. The curve similarity ensemble learning algorithm proposed in this paper improves accuracy by 6.1% compared to sub-optimal non-ensemble learning models. Experimental results validate the reliability and advancement of the proposed architecture.

Scientia Sinica InformationisVol. 54(12)
Openalex Percentile: Top 87%
Advanced Fiber Optic Sensors
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Intelligent fiber co-trench identification algorithm and experiment — Yucong Liu, Hui Ying Yang, et al. · Scientia Sinica Informationis (2024) | TGRS Research Map | TGRS